Source 1review2015Neurophotonics
Toolkit/wireless implantable system
wireless implantable system
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
A wireless implantable system is described as a configuration class within platforms for combined optogenetics and electrophysiology in live animals. In the supplied evidence, it functions as an implantable format for in vivo light delivery together with electrophysiological work, but no specific device architecture or operating characteristics are provided.
Usefulness & Problems
Why this is useful
This configuration is useful as one of the deployment options considered for combining optical stimulation with electrophysiological recordings in living brain tissue. The source frames its selection as dependent on practical considerations and the experimental questions being addressed.
Source:
The review includes wireless implantable systems as a configuration class for combined optogenetics and electrophysiology in live animals.
Source:
wireless implantation for combined optogenetics and electrophysiology contexts
Problem solved
The tool addresses the need for an implantable configuration for performing combined optogenetic light delivery and electrophysiological experiments in vivo. The evidence does not show that it solves deeper constraints such as light penetration limits in tissue.
Source:
It represents a deployment format for performing combined optical stimulation and electrophysiological work in vivo.
Source:
provides an implantable system format discussed within combined optogenetics and electrophysiology configurations
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A delivery strategy grouped with the mechanism branch because it determines how a system is instantiated and deployed in context.
Mechanisms
light deliveryTechniques
Computational DesignTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
The available text only supports that this is an implantable wireless system configuration used in combined optogenetics and electrophysiology in live animals. No details are provided on construct design, optical wavelength, hardware components, expression systems, cofactors, or surgical implementation.
The supplied evidence does not specify the device architecture, wireless modality, power strategy, recording performance, light output, or validation results. It also does not establish that wireless implantation overcomes challenges of light delivery in living brain tissue.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Optodes or optrodes are neural probes that combine conventional electrophysiological recordings with optical channel or channels for optogenetic activation.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Because visible light penetration in tissue is limited, development of optogenetic tools was quickly followed by development of light-delivery devices for in vivo optogenetics applications.
Approval Evidence
1 source1 linked approval claimfirst-pass slug wireless-implantable-system
Several aspects including challenges for light delivery in living brain tissue, the combination of light delivery with electrophysiological recordings, probe designs, multimodality, wireless implantable system, and practical considerations guiding the choice of configuration depending on the questions one seeks to address are presented.
Source:
configuration guidancesupports
Choice of combined optogenetics-electrophysiology configuration is guided by practical considerations and by the questions one seeks to address.
Source:
Comparisons
Source-backed strengths
Its main supported strength is that it is recognized as a configuration class within multimodal optogenetics-electrophysiology systems for live animals. The evidence also indicates that configuration choice is guided by practical considerations, implying situational utility, but no quantitative performance data are reported.
Source:
presented as part of multimodal and practical configuration options for live-animal studies
Ranked Citations
- 1.